Programmable at the core
A GPU-class architecture designed to support evolving workloads—not a fixed-function endpoint.
PROGRAMMABLE ACCELERATED COMPUTING
DIRAC is our foundation for a new class of GPU and accelerator infrastructure—programmable, memory-led, and engineered as one system from software to silicon.
NowFPGA-based compute products.
NextScaling through systems and later purpose-built silicon
01 / THE IDEA
Every engineering step—from deterministic execution and HBM locality to live Voice and Chat—is part of a larger platform. DIRAC is implemented today in FPGA-based compute products, with a path through servers and racks to later purpose-built silicon.
02 / TECHNOLOGY
A GPU-class architecture designed to support evolving workloads—not a fixed-function endpoint.
Compute, HBM and data movement are designed together so the whole system can do useful work.
We qualify deterministic dense execution first, creating a trustworthy base for broader capabilities.
03 / DIFFERENCE
The runtime, workload mapping, compute engines, memory paths and physical implementation evolve as one design.
Exact outputs, deterministic semantics and physical qualification come before performance claims.
The same architectural foundation connects today's FPGA-based compute products to larger systems and later purpose-built silicon.
04 / WHAT DIRAC ENABLES
Voice and Chat are our first live applications. The platform ambition spans the same broad workload universe served by modern GPUs—expanded deliberately as the architecture and software stack mature.
Foundation models, fine-tuning, recommendation, search, vision and generative AI.
Initial focusRendering, real-time graphics, virtual production, visualization and digital twins.
RoadmapSimulation, numerical methods, engineering analysis, research and discovery.
RoadmapVoice, conversational systems, video, imaging and content processing.
Voice live firstPerception, planning and responsive compute from the edge to the data centre.
Future platformParallel analytics, databases, security, cloud services and high-throughput computing.
Future platform05 / HARDWARE FAMILY
Nine expressions of the Mastiṣka hardware vision. A shared design language connects desktop systems, accelerator modules and large-scale infrastructure to robotics and automotive compute.

Bright brushed titanium finishes, polished edges and diagonal ventilation give the family a common identity. Graphite structures add depth; restrained teal accents mark the details.
A compact desktop concept for local AI experimentation and development.
An expandable tower concept for demanding development, research and creative workloads.
A modular rackmount concept for integrating accelerators into shared compute systems.
A cabinet-scale concept bringing compute, service access and cooling together.
A multi-rack vision for coordinating compute, networking and shared cooling infrastructure.
An add-in accelerator concept for integration into compatible host systems.
An OAM-style module concept with a tall heatsink assembly, retention frame and service handle.
A mountable edge-compute concept with accessible camera, sensor and control connections.
A rugged enclosure concept exploring onboard compute packaging and sealed connections.
FPGA-based compute products are the current implementation of DIRAC and are undergoing exact physical qualification. Purpose-built silicon is a later implementation path for the same architecture. These form studies explore how the platform could take shape across systems and applications.
06 / THE GREATER PUZZLE
Today's engineering is the first layer of a much larger strategy: a sovereign, programmable accelerated-computing platform created in the UAE and built for global scale.
07 / EXPERIENCE + BUILD